SYLLABUS. COURSE DESCRIPTION (Course information, basic description, general information, teaching overview, required equipment and preparation, etc.

Transcription

1 Faculty of Medicine Course title: Medical Physics and Biophysics Course coordinator: Collaborators: Slaven Jurković, PhD, Assistant Professor Diana Mance, PhD, Senior Assistant Study program: Integrated Undergraduate and Graduate University Study of Medicine in English Course status: compulsory Year: first ECTS workload coefficient: 6.0 Workload (L+P+S). 75 (L30+P25+S20) SYLLABUS COURSE DESCRIPTION (Course information, basic description, general information, teaching overview, required equipment and preparation, etc.) Medical Physics and Biophysics is an introductory course which gives students an insight into the physical principles required for a better understanding of processes in other fields, such as anatomy, biochemistry, physiology, histology, pathology, etc. The purpose of this course is to motivate students to use the analytical and quantitative approach in the research of human body functions. COURSE STRUCTURE Formal lectures: 30 hours Seminars: 20 hours Practicals: 25 hours Total hours: 75 During practicals students will develop abilities and skills in using various measuring devices which are a part of different medical devices. Upon completing this course students will be able to collect data, critically evaluate and interpret the results, as well as correctly use the International System of Units and Measurements in medicine. Assigned reading: I.P. Herman. Physics of the Human Body, Springer, Berlin, Optional / additional reading: R. K. Hobbie, B.J. Roth. Intermediate Physics for Medicine and Biology, Springer, New York, Davidovits Paul. Physics in Biology and Medicine, Academic Press, Elsevier, COURSE TEACHING PLAN The list of lectures with titles:

2 L Introduction. SI Units. L2 Fundamental Forces. Statics of the Body. Review of Forces, Torques and Equilibrium. L3 Mechanics of the Human Body. Implementation of Newton s Laws: Levers in the Body, Passive Walking and High Jump. L4 Mechanical Properties of Tissues. Elasticity and Strength of Materials. Viscoelastic Properties of Body Tissues Mechanical Models. L5 Optics in Medicine. Laws of Refraction and Reflection: Image Formation by Plane and Spherical Surfaces of Refraction. L6 The Human Eye the Optical Model. L7 Image Formation by Lens and Microscope: Resolution of the Microscope and the Eye. Types of Optical Microscopes: Electronic Transmission and Scanning Microscope. L8 Physical Optics L9 Fluids. Hydrostatics. Surface Tension and Its Implications. Law of Laplace. L0 Hydrodynamics. Bernoulli's Equation, Viscosity and Poiseuille's Law. Turbulent Flow. L Rheological Properties of Blood. Physics of the CirculatorySystem. Consequences of Clogged Arteries. L2 Ideal and Real Gases. Gas Laws. Physics of Breathing. L3 Basic Principles of Thermodynamics: I and II Law. L4 Thermodynamics of a Biological system. Transfer of Heat. L5 Oscillations and Waves L6 Sound Waves: The Physics of Hearing. Intensity of Sound Waves. L7 Connection between Physical and Physiological Parameters of Sound. L8 Ultrasound L9 Dielectric Properties of Tissues. Tissues in Electric Field. Therapeutic Applications of Electric Fields. L20 Matter in the External Magnetic Field: A Biological System in the Electric Circuit, Magneto therapy. L2 Transfer of Particles and Ions through Membranes. Action Potential. L22 Physical Basis of Electro- and Magneto- Diagnostics (EKG, EEG, EMG). L23 Structure of Atom and Molecule: Molecular Bonds and Energy States. L24 Electromagnetic Waves.

3 L25 Medical Use of X Rays. L26 Interaction of Photons with Matter. L27 Structure of the Atomic Nucleus. Nuclear Decay. Decay Rate and Half-life. L28 Radioactivity. Alfa, Beta and Gamma Decay. L29 Application of Radioactivity in Medicine. L30 Detection and Dosimetry of Ionizing Radiation. The list of seminars with descriptions: S Calculating Measurement Errors and Estimating Measurement Accuracy S2 Vectors and Operations with Vectors. Graphical Representation of Measurement Results and Interpretation of Graphs. Differential Calculus. S3 Optics S4 Levers in the Human Body S5 Hydromechanics S6 Physics of Breathing S7 Sound. Hearing and the Ear. S8 Diffusion and Osmosis. Transport of Energy and Matter through Cell Membranes. S9 Medical Use of X-Rays S0 Application of Radioactive Isotopes in Nuclear Medicine The list of practicals with descriptions: Location: Physics, Radmile Matejčić 2 Street, st floor, P0 Introduction to Practicals. General Laboratory Safety Procedures and Rules. P Mechanical Waves P2 Surface Tension and Viscosity P3 Calorimetry P4 Thermal Environmental Conditions P5 Index of Refraction. Spectroscopy.

4 P6 Spherical Mirrors and Lenses P7 Electric Circuits P8 Measurement of Resistance. The Wheatstone Bridge Method. P9 Audiometry P0 Ionizing radiation P Compensation P2 Compensation Students obligations: The attendance at lectures, seminars and practicals is mandatory. If necessary, a student can be absent from 30% of the classes of the overall course workload, but has to make up for the practicals he/she failed to attend. Students obligations are course attendance and active participation in all practicals and seminars. Throughout the course, students have two midterm exams (tests) consisting of 6 questions each. Test covers the topics presented in seminars -5. Test 2 covers the topics presented in seminars 6-0. The completion and proper documentation of each practical as well as the consent of the course instructor are required for course completion. Evaluation of students work: Students can obtain a total of 00 credits (a maximum of 70 credits during the course and a maximum of 30 credits on the final exam). Students are allowed to take the final exam if they acquire a minimum of 40 credits during the trimester. Students who did not gain 40% on each midterm exam may retake their midterm exams, but henceforth they can only gain the minimum number of credits required to pass the midterm exam. On the final exam, which is worth 30 credits, a student must obtain at least 50% on the written part of exam. The student who gains between 30 39,99 credits during the semester may take the final exam, in which case the only grade he can be awarded, upon completing the final exam, is E. EXAM (Exam taking, detailed exam description oral/written/practical part, point distribution, grading criteria): Assessment of students progress during classes and on the final exam is shown in Table. Table. Assessment Grade Point Maximum Midterm (6 questions) 6 Midterm Exams Midterm 2 (6 questions) 6 total 32 Accepted practicals and reports Practicals 0 x 5 x 0.7 credits 35 total 35 Active participation Active participation during seminars 3 TOTAL 70 Written part (29 questions) 5 FINAL EXAM Oral part 5 total 30 TOTAL 00

5 Partial exams: Two midterm exams are scheduled during the trimester.. Midterm exam. 6 questions 2. Midterm exam. 6 questions Practicals: Throughout 0 practicals a student can obtain a maximum of 35 credits. Each completed and accepted practical is assessed. Active participation during seminars: During the trimester student participation and dedication will be monitored. A maximum of 3 points is awarded through active participation. Final exam: Students have to pass the written exam (in form of a test consisting of 29 questions, each containing 5 statements) before approaching the oral exam. In order to pass the written part of the exam students have to score at least 50% (5/29 correct answers). Assessment of the written part of the final exam: Assessment of the oral part of the final exam: Number of correct answers Credits Grade on oral exam Credits sufficient 9 good very good 3 excellent 5 The ECTS grading system is defined by the following criteria: A (5) credits B (4) 70-79,99 credits C (3) 60-69,99 credits D (2) 50-59,99 credits

6 E (2) 40-49,99 credits Possibility of teaching in another language: Croatian Other important information regarding the course: Retaking the course: A student who acquires less than 30 credits during the course has failed the course and is graded with F and must retake the course MEDICAL PHYSICS AND BIOPHYSICS.

7 COURSE SCHEDULE (for academic year 207/208) Date Lectures (time and location) /3/208 L ( ) L2 ( ) P 9 Med. Faculty 8/3/208 L3-4 ( ) Seminars (time and location) S ( ) Practicals (time and location) Instructor Diana Mance, PhD, Senior Assistant 5/3/208 L5-6 ( ) S2 ( ) P0 ga ( ) P0 gb ( ) Diana Mance, PhD, Senior Assistant 22/3/208 L7-8 ( ) S3 ( ) P ga P gb Diana Mance, PhD, Senior Assistant 29/3/208 L9-0 ( ) S4 ( ) P2 ga P2 gb Diana Mance, PhD, Senior Assistant

8 5/4/208 L-2 ( ) S5 ( ) P3 ga P3gB 2/4/208 L3-4 ( ) P4 ga 9/4/208 L5-6 ( ) P4 gb P5 ga P5 gb 26/4/208 L7-8 ( ) S6 ( ) P6 ga P6 gb 3/5/208 L9-20 ( ) S7 ( ) P7 ga P7 gb

9 0/5/208 L2-22 ( ) S8 ( ) P8 ga P8 gb 7/5/208 L23 ( ) L24 ( ) S9 ( ) P9 ga P9 gb Slaven Jurković, PhD, Assistant Professor 24/5/208 L25-27 ( ) S0 ( ) P0 ga P0 gb ( ) Slaven Jurković, PhD, Assistant Professor Slaven Jurković, PhD, Assistant Professor 7/6/208 L28-30 ( ) P,2 ga P,2 gb ( ) Slaven Jurković, PhD, Assistant Professor

10 List of lectures, seminars, and practicals: LECTURES (Topic) Teaching Hours Location L Introduction. SI Units. L 2 L 3 L 4 L 5 Fundamental Forces. Statics of the Body. Review of Forces, Torques and Equilibrium. Mechanics of the Human Body. Implementation of Newton s Laws: Levers in the Body, Passive Walking and High Jump. Mechanical Properties of Tissues. Elasticity and Strength of Materials. Viscoelastic Properties of Body Tissues Mechanical Models. Optics in Medicine. Laws of Refraction and Reflection: Image Formation by Plane and Spherical Surfaces of Refraction. L 6 The Human Eye the Optical Model. L 7 Image Formation by Lens and Microscope: Resolution of the Microscope and the Eye. Types of Optical Microscopes: Electronic Transmission and Scanning Microscope. L 8 Physical Optics L 9 L 0 L Fluids. Hydrostatics. Surface Tension and Its Implications. Law of Laplace. Hydrodynamics. Bernoulli's Equation, Viscosity and Poiseuille's Law. Turbulent Flow. Rheological Properties of Blood. Physics of the Circulatory System. Consequences of Clogged Arteries. L 2 Ideal and Real Gases. Gas Laws. Physics of Breathing. L 3 Basic Principles of Thermodynamics: I and II Law. L 4 Thermodynamics of a Biological system. Transfer of Heat. L 5 Oscillations and Waves L 6 L 7 Sound Waves: The Physics of Hearing. Intensity of Sound Waves. Connection between Physical and Physiological Parameters of Sound. L 8 Ultrasound L 9 L 20 L 2 L 22 Dielectric Properties of Tissues. Tissues in Electric Field. Therapeutic Applications of Electric Fields. Matter in the External Magnetic Field: A Biological System in the Electric Circuit, Magneto therapy. Transfer of Particles and Ions through Membranes. Action Potential. Physical Basis of Electro- and Magneto- Diagnostics (EKG, EEG, EMG). Faculty of Medicine Lecture room 9 Faculty of Medicine Lecture room 9 Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics,

11 L 23 Structure of Atom and Molecule: Molecular Bonds and Energy States. L 24 Electromagnetic Waves L 25 Medical Use of X Rays. L 26 Interaction of Photons with Matter. L 27 Structure of the Atomic Nucleus. Nuclear Decay. Decay Rate and Half-life. L 28 Radioactivity. Alfa, Beta and Gamma Decay. L 29 Application of Radioactivity in Medicine. L 30 Detection and Dosimetry of Ionizing Radiation. TOTAL TEACHING HOURS 30 Physics, Physics, Physics, Physics, Physics, Physics, Physics, Physics, S S2 SEMINARS (topic) Teaching Hours Location Calculating Measurement Errors and Estimating 2 Measurement Accuracy Physics, Vectors and Operations with Vectors. Graphical Representation of Measurement Results and Interpretation of Graphs. Differential Calculus. 2 Physics, S3 Optics 2 S4 Levers in the Human Body 2 S5 Hydromechanics 2 S6 Physics of Breathing 2 S7 Sound. Hearing and the Ear. 2 Diffusion and Osmosis. Transport of Energy and Matter S8 through Cell Membranes. 2 S9 Medical Use of X-Rays 2 Application of Radioactive Isotopes in Nuclear S0 Medicine 2 TOTAL TEACHING HOURS 20 PRACTICALS (content) Teaching Hours Location Introduction to Practicals. General Laboratory Safety P0 Procedures and Rules. Physics, P Mechanical Waves 2 P2 Surface Tension and Viscosity 2 P3 Calorimetry 2 P4 Thermal Environmental Conditions 2 P5 Index of Refraction. Spectroscopy. 2 P6 Spherical Mirrors and Lenses 2 P7 Electric Circuits 2 Measurement of Resistance. The Wheatstone Bridge P8 Method. 2 P9 Audiometry 2 P0 Ionizing radiation 2

12 P Compensation 2 P2 Compensation 2 TOTAL TEACHING HOURS 25 Final Exam Dates. 5/6/ /6/ /7/ /9/ /9/208